CN218931020U

CN218931020U - Feeding device for automatic arranging equipment of motor plane bearing assembly

Info

Publication number: CN218931020U
Application number: CN202223424719.7U
Authority: CN
Inventors: 戴光海; 杨喜来; 张必善
Original assignee: Faradyne Motors Suzhou Co Ltd
Current assignee: Faradyne Motors Suzhou Co Ltd
Priority date: 2022-12-20
Filing date: 2022-12-20
Publication date: 2023-04-28
Anticipated expiration: 2032-12-20

Abstract

The application relates to a loading attachment for automatic goods of furniture for display rather than for use equipment of motor plane bearing subassembly, through conveying subassembly, sensor subassembly and material loading subassembly in order to realize the automation material loading to copper seat or graphite plane bearing, compare in prior art, this application has realized carrying out the single separation piece that has the beat to copper seat or graphite plane bearing through the material loading subassembly, has improved and has sent a piece efficiency, provides the hardware basis for motor plane bearing's automated processing.

Description

Feeding device for automatic arranging equipment of motor plane bearing assembly

Technical Field

The utility model relates to a feeding device for automatic ornament equipment of a motor plane bearing assembly, and belongs to the technical field of motor bearing assembly.

Background

In the process of assembling the motor, the planar bearing assembly needs to be placed and assembled first, referring to fig. 7, a conventional planar bearing assembly 7 includes a copper seat 71, three friction plates 72 and a graphite planar bearing 73, where the copper seat 71 is provided with slots 711 at equal intervals, the friction plates 72 are formed with clamping blocks, the friction plates 72 are clamped on the copper seat 71, and the graphite planar bearing 73 is placed on the friction plates 72. When the motor is assembled, the plane bearing assemblies are required to be placed in advance, and the conventional method is manual, so that the operation is complex, the efficiency is low, and automatic ornament production cannot be realized, so that a feeding device for automatic ornament equipment of the motor plane bearing assemblies is required to be designed, automatic sorting of copper seats or graphite plane bearings is realized, a hardware basis is provided for realizing automatic ornament, and the production efficiency is improved.

Disclosure of Invention

The utility model aims to provide a feeding device for automatic arranging equipment of a motor plane bearing assembly, which can realize automatic sorting of copper seats or graphite plane bearings and has high feeding efficiency.

In order to achieve the above purpose, the present utility model provides the following technical solutions: a loading attachment for automatic goods of furniture for display rather than for use equipment of motor plane bearing subassembly, loading attachment includes:

a support frame;

the conveying assembly is arranged on the supporting frame and used for conveying the copper seat or the graphite plane bearing;

the sensor assembly is arranged at the end part of the transmission assembly, is in signal connection with the transmission assembly and is used for detecting a copper seat or a graphite plane bearing on the end part of the transmission assembly; a kind of electronic device with high-pressure air-conditioning system

The plurality of groups of feeding assemblies are arranged on the conveying assembly and are used for separating the conveying copper seats or the graphite plane bearings one by one and placing the conveying copper seats or the graphite plane bearings on the conveying assembly;

each feeding assembly comprises a distributing part and a cylindrical hopper, the distributing parts are arranged on the conveying assemblies, the cylindrical hoppers are arranged on the distributing parts and comprise a blanking plate arranged on the conveying assemblies, a supporting plate arranged on the blanking plate and provided with a cavity between the blanking plate and the blanking plate, and a movable plate arranged in the cavity, a blanking opening is formed in the blanking plate, the projection of the blanking opening falls on the conveying assemblies, a through hole communicated with the cavity is formed in the supporting plate, the projection of the through hole falls on the movable plate, the cylindrical hopper is arranged on the supporting plate and communicated with the through hole, a transfer hole is formed in the movable plate, and the movable plate moves in the cavity under the driving of the power part so that the transfer hole is matched with the through hole or the blanking opening.

Further, the conveying assembly comprises a conveying belt arranged on the supporting frame and a driving motor for driving the conveying belt to work, the driving motor is in signal connection with the sensor assembly, and the projection of the discharging opening falls on the conveying belt.

Further, the cylindrical hopper is symmetrically provided with strip-shaped openings along the height direction.

Further, a connecting cylinder is arranged in the through hole, the connecting cylinder is inserted into the cylinder hopper, and the top of the connecting cylinder and the bottom of the strip-shaped opening are different in height by a copper seat or a graphite plane bearing.

Further, a guide is formed between the support plate and the movable plate.

Further, the guide piece comprises a guide groove arranged on the support plate and a guide block formed by extending upwards from the upper surface of the movable plate, and the guide block slides in the guide groove under the action of the air cylinder.

The utility model has the beneficial effects that: this application is through conveying subassembly, sensor subassembly and material loading subassembly in order to realize the automation material loading to copper seat or graphite plane bearing, compare in prior art, this application has realized carrying out single separation to copper seat or graphite plane bearing that has the beat through the material loading subassembly and has sent a piece, has improved and has sent a piece efficiency, provides the hardware basis for motor plane bearing's automated processing.

The foregoing description is only an overview of the present utility model, and is intended to provide a better understanding of the present utility model, as it is embodied in the following description, with reference to the preferred embodiments of the present utility model and the accompanying drawings.

Drawings

FIG. 1 is a block diagram of an automatic ornament device of a motor plane bearing assembly according to a preferred embodiment of the present application.

Fig. 2 is an enlarged view of the structure of fig. 1 a.

Fig. 3 is a front view of a motor flat bearing assembly automatic ornament apparatus.

Fig. 4 is a structural view of the loading device in fig. 3.

Fig. 5 is a block diagram of the loading assembly of fig. 4.

Fig. 6 is a structural view of the assembled unit of fig. 3.

Fig. 7 is a block diagram of the planar bearing assembly of fig. 1.

Detailed Description

The following describes in further detail the embodiments of the present utility model with reference to the drawings and examples. The following examples are illustrative of the utility model and are not intended to limit the scope of the utility model.

For better illustrating a positioning mechanism of a double-layer automatic circulation return line in a preferred embodiment of the present application, please refer to fig. 1 and 7, firstly, a motor plane bearing assembly automatic swinging equipment (hereinafter referred to as swinging equipment) is specifically described, the plane bearing assembly 7 includes a copper seat 71, a friction plate 72 and a graphite plane bearing 73, the three friction plates 72 are clamped on the copper seat 71, the graphite plane bearing 73 is placed on the friction plate 72, and the positioning mechanism includes: the device comprises a frame body 1, a feeding unit, a manipulator 4 and an assembling unit 5. The feeding unit comprises a feeding device 2 and a feeding device 3 which are arranged on two sides of the frame body 1, wherein the feeding device 2 is used for feeding the copper seat 71 and the graphite plane bearing 73, and the feeding device 3 is used for feeding the friction plate 72. The manipulator 4 is installed on the frame body 1 and is used for grabbing a copper seat 71, a friction plate 72 and a graphite plane bearing 73 on the feeding unit.

Referring to fig. 6, in the present embodiment, the assembly unit 5 includes a swing assembly, a turnover manipulator and a detection assembly on the mounting frame body 1, the swing assembly includes a swing platform 51 installed on the mounting frame body 1, and a driving member 52 for driving the swing platform 51 to rotate, the manipulator 4 sequentially places the plane bearing assembly 7 on the swing platform 51, and each time one friction plate 72 is placed, the driving member 52 drives the swing platform 51 to rotate by 120 °.

Referring to fig. 7, the detecting assembly (not shown) includes a first detecting member for detecting the copper seat 71, a second detecting member for detecting the friction plate 72, and a third detecting member for detecting the graphite plane bearing 73, wherein the first detecting member is used for detecting the corresponding position of the groove 712 on the circumferential side of the copper seat 71, and the first detecting member is in signal connection with the driving member 52. Specifically, since the grooves 712 are equidistantly disposed on the shaft side of the copper seat 71, and the clamping grooves 711 for clamping the friction plates 72 are equidistantly disposed on the upper surface of the copper seat 71, the positions of each groove 712 corresponding to the clamping grooves 711 are relatively fixed, so that the friction plates 72 are positioned so as to be accurately clamped on the copper seat 71, the copper seat 71 can be positioned by detecting the corresponding positions of the grooves 712 through the first detection piece, and when the first detection piece detects the grooves 712, the manipulator 4 can grasp the friction plates 72 for swinging; when the first detecting element does not detect the groove 712, the driving element 52 drives the swinging platform 51 to rotate, so as to drive the copper base 71 to rotate until the first detecting element detects the groove 712. The detecting assembly is an infrared sensor, and the second detecting member and the third detecting member are used for detecting whether the friction plate 72 and the graphite plane bearing 73 are placed or not.

Referring to fig. 4, in this embodiment, in order to prevent the copper seat 71 or the graphite plane bearing 73 from being reversely placed and subsequent swinging parts cannot be performed, an image recognition assembly 24 for detecting the copper seat 71 or the graphite plane bearing 73 is arranged on the feeding device 2, the image recognition assembly 24 is in signal connection with a turning manipulator, and the turning manipulator is used for turning over the copper seat 71 or the graphite plane bearing 73;

referring to fig. 2, in this embodiment, in order to ensure that the friction plate 72 meets the precision requirement, a switchable measurement slide way 31 and a workpiece conveying slide way 32 are disposed on the workpiece conveying device 3, the measurement slide way 31 is used for conveying the friction plate 72 under the measurement working condition, the workpiece conveying slide way 32 is used for conveying the friction plate 72 under the workpiece placing working condition, a thickness detection piece 33 for detecting the thickness of the friction plate 72 is disposed at the end of the measurement slide way 31, and the thickness detection piece 33 is in signal connection with the manipulator 4.

Specifically, the feeding device 3 is a vibration plate 3, which is in the prior art, the thickness detection piece 33 is a thickness gauge, when the thickness of the friction plate 72 needs to be measured, the feeding slideway 32 of the vibration plate 3 is switched to the measurement slideway 31, the friction plate 72 is sequenced by the vibration plate and then sequentially detected by the thickness gauge 33, the friction plate 72 with the thickness difference within 0.02mm is placed into the same material box by the manipulator 4, the feeding device 3 is switched to the feeding slideway 32 after the measurement is completed, the friction plate 72 with the thickness difference within 0.02mm is polished and then is put into the vibration plate again, sequencing is carried out again, and the manipulator 4 is waited for grabbing the swinging piece at the tail end of the feeding slideway 32, and the friction plate 72 with the thickness difference greater than 0.02mm is reworked and then the actions are repeated.

Referring to fig. 6, in the present embodiment, in order to implement the overturning of the copper seat 71 or the graphite plane bearing 73 on the swing platform 51, the overturning robot includes a horizontal moving member 53 mounted on the frame 1, a vertical moving member 54 mounted on the horizontal moving member 53, a rotating member 55 mounted on the vertical moving member 54, and a hand clamping member mounted on the rotating member 55. Specifically, the horizontal moving member 53 and the vertical moving member 54 are formed by conventional cylinders, sliding rails and sliding blocks, which are conventional applications in the prior art, and are not described in detail herein, and the rotating member 55 is a motor.

In this embodiment, to stabilize the copper seat 71 or graphite planar bearing 73 on the clamping fixture platform 51, the clamping fixture includes an opening and closing cylinder 56 mounted on the rotating member 55 and a clamping jaw 57 mounted on the opening and closing cylinder 56. Specifically, a semicircular groove is formed in the clamping jaw 57, and two semicircular grooves are surrounded to form a circular clamping groove for clamping the copper seat 71 or the graphite plane bearing 73.

Referring to fig. 3, in the present embodiment, the manipulator 4 includes a driving device 41, a vacuum chuck 42 mounted on the driving device 41, and a gripper 43, wherein the vacuum chuck 42 is used for gripping the friction plate 72, and the gripper 43 is used for gripping the copper seat 71 or the graphite plane bearing 73. Specifically, the manipulator 4 is in the prior art, and will not be described in detail herein.

Referring to fig. 1 and 3, in this embodiment, the swing apparatus further includes a product storage area 6, a storage rack is disposed in the product storage area 6, the storage rack includes a bottom plate and eight vertical rods arranged on the bottom plate in array, and the placed plane bearing assemblies 7 are stacked and sleeved on the vertical rods in sequence by the manipulator 4.

In this embodiment, in order to better control the production tact, the ornament device further includes a PLC electrical control cabinet (not shown), and the PLC electrical control cabinet controls the operation of the ornament device, which is a prior art, and will not be described in detail herein.

Referring to fig. 4 and 5, a loading device (hereinafter referred to as a loading device) for an automatic arranging device of a motor plane bearing assembly according to a preferred embodiment of the present application includes: support frame 21, conveying subassembly 22, sensor subassembly 25 and material loading subassembly 23. The transfer assembly 22 is mounted on the support frame 21 for transporting the copper base 71 or graphite planar bearing 73. The sensor assembly 25 is mounted at the end of the transfer assembly 22 in signal communication with the transfer assembly 22 for detecting a transport copper seat 71 or a graphite planar bearing 73 on the end of the transfer assembly 22. Several sets of loading modules 23 are mounted on the transfer module 22 for individually separating and placing the transport copper blocks 71 or graphite plane bearings 73 on the transfer module 22. Specifically, the conveying components 22 are arranged in two groups, the two groups of conveying components 22 are respectively used for feeding the copper seat 71 and the graphite plane bearing 73, five groups of feeding components 23 are arranged on each group of conveying components 22, and the feeding device 2 further comprises a control unit which is in signal connection with the five groups of feeding components 23 so as to control the work of the five groups of feeding components 23.

Each group of feeding components 23 comprises a distributing component and a cylinder hopper 231, wherein the distributing component is arranged on the conveying component 22, the cylinder hopper 231 is arranged on the distributing component, the distributing component comprises a blanking plate 234 arranged on the conveying component 22, a supporting plate 232 arranged on the blanking plate 234 and provided with a cavity between the blanking plate 234 and the blanking plate 234, and a movable plate 233 arranged in the cavity, a blanking opening 2341 is formed in the blanking plate 234, the projection of the blanking opening 2341 falls on the conveying component 22, a through hole 2321 communicated with the cavity is formed in the supporting plate 232, the projection of the through hole 2321 falls on the movable plate 233, the cylinder hopper 231 is arranged on the supporting plate 232 and communicated with the through hole 2321, a transfer hole 2331 is formed in the movable plate 233, and the movable plate 233 moves in the cavity under the driving of the power component 235 so that the transfer hole 2331 is matched with the through hole 2321 or the blanking opening 2341. Specifically, the blanking plate 234 is mounted on the mounting seat 236, the mounting seat 236 is mounted on the conveying assembly, a gap with a height greater than the thickness of the copper seat 71 or the graphite plane bearing 73 exists between the ground of the mounting seat 236 and the conveying assembly, the power member 235 is an air cylinder, the cylinder body of the air cylinder 235 is fixed on the mounting seat 236, and the output shaft of the air cylinder 235 is connected with the movable plate 233

In this embodiment, to control the tact, the conveyor assembly 22 includes a conveyor belt mounted on the support frame 21 and a driving motor 52 for driving the conveyor belt (not shown) to operate, the driving motor 52 is in signal connection with the sensor assembly 25, and the projection of the discharge opening 2341 falls on the conveyor belt. Specifically, the driving motor 52 is connected to the conveyor belt through a transmission mechanism, and drives the conveyor belt to move.

In this embodiment, in order to facilitate the observation of the allowance of the copper seat 71 or the graphite plane bearing 73 in the cylindrical hopper 231, the cylindrical hopper 231 is symmetrically provided with elongated openings 2311 along the height direction thereof.

In this embodiment, in order to facilitate the operation of the feeding device 2 when the cylinder hopper 231 is replaced, the through hole 2321 is internally provided with the connecting cylinder 2323, the connecting cylinder 2323 is inserted into the cylinder hopper 231, and the top of the connecting cylinder 2323 is different from the bottom of the elongated opening 2311 by a height of the copper seat 71 or the graphite plane bearing 73. The copper seat 71 or the graphite plane bearing 73 stored in the connecting cylinder 2323 can continue to provide parts without stopping operation when the cylinder hopper 231 is replaced, and the production efficiency is improved.

In this embodiment, in order to facilitate the fitting of the transfer hole 2331 with the through hole 2321 and the feed opening 2341, a guide is formed between the support plate 232 and the movable plate 233.

In this embodiment, to facilitate guiding the movable plate 233, the guide member includes a guide groove 2322 provided on the support plate 232 and a guide block 2332 formed to extend upward from the upper surface of the movable plate 233, and the guide block 2332 slides in the guide groove 2322 under the action of the air cylinder.

Working principle: under the detection working condition, the workpiece conveying channel of the vibration disk 3 is switched to the measurement slide way 31, the friction plates 72 are sequentially conveyed out of the measurement slide way 31 after being sequenced by the vibration disk 3, the thickness gauge 33 sequentially performs thickness measurement on the friction plates 72, the friction plates 72 with the thickness difference within 0.02mm and the friction plates 72 with other thickness differences are respectively grabbed by the manipulator 4 and are respectively placed in a material box, the friction plates 72 with the thickness difference within 0.02mm are used for a workpiece to be placed after being ground and polished, and the friction plates 72 with other thickness differences are re-measured after reworking.

Under the work condition of the part arranging, a part conveying channel of the vibration plate 3 is switched into a part conveying slideway 32, the friction plates 72 with the thickness difference within 0.02mm after grinding and polishing are placed into the vibration plate 3, and are sequentially sent out by the part conveying slideway 32 after being sequenced by the vibration plate 3 so as to be grasped by the standby manipulator 4 for arranging.

Feeding process of the feeding device 2: the copper seat 71 or the graphite plane bearing 73 in the cylinder hopper 231 falls into the through hole 2321 through the connecting cylinder 2323, the air cylinder 235 drives the movable plate 233 to move so that the transfer hole 2331 is matched with the through hole 2321, the copper seat 71 or the graphite plane bearing 73 in the through hole 2321 falls into the transfer hole 2331, the air cylinder 235 drives the movable plate 233 to move again so that the transfer hole 2331 is matched with the blanking hole 2341, the copper seat 71 or the graphite plane bearing 73 in the transfer hole 2331 falls onto the conveyor belt through the blanking hole 2341, the conveyor belt drives the copper seat 71 or the graphite plane bearing 73 to move towards the end of the conveyor belt under the action of the motor, a signal is sent to the motor when the sensor assembly 25 at the end of the conveyor belt detects the copper seat 71 or the graphite plane bearing 73, and the motor stops, and after the copper seat 71 or the graphite plane bearing 73 is taken away, the motor continues to work.

The ornament process comprises the following steps: the manipulator 4 first grabs a copper seat 71 detected by the image recognition component 24 from the feeding device 2 and places the copper seat 71 on the goods of furniture for display rather than for use platform 51, and the turnover manipulator judges whether the copper seat 71 needs to be turned over or not according to the detection result of the image recognition component 24, if the copper seat 71 needs to be turned over, the turnover manipulator turns over the copper seat 71 and then places the copper seat on the goods of furniture for display rather than for use platform 51. After the copper seat 71 is correctly placed, the first detecting member detects whether the corresponding position of the groove 712 of the copper seat 71 is correct, and if the first detecting member does not detect the position of the groove 712 of the copper seat 71, the driving member 52 drives the swinging member platform 51 to rotate until the first detecting member detects the position of the groove 712 of the copper seat 71. After the copper seat 71 is positioned, the friction plates 72 on the workpiece conveying slideway 32 are grabbed by the manipulator 4 to be clamped on the copper seat 71, one friction plate 72 is clamped, and the driving piece 52 drives the swinging platform 51 to rotate 120 degrees until the three friction plates 72 are clamped. After the friction plate 72 is clamped, the manipulator 4 grabs a graphite plane bearing 73 detected by the image recognition assembly 24 and places the graphite plane bearing 73 on the friction plate 72, the overturning manipulator judges whether the graphite plane bearing 73 needs to be overturned according to the detection result of the image recognition assembly 24, and after the graphite plane bearing 73 is placed, the manipulator 4 grabs the plane bearing assembly 7 on the goods of furniture platform 51 and places the plane bearing assembly in the finished product storage area 6.

The technical features of the above-described embodiments may be arbitrarily combined, and all possible combinations of the technical features in the above-described embodiments are not described for brevity of description, however, as long as there is no contradiction between the combinations of the technical features, they should be considered as the scope of the description.

The above examples illustrate only a few embodiments of the utility model, which are described in detail and are not to be construed as limiting the scope of the utility model. It should be noted that it will be apparent to those skilled in the art that several variations and modifications can be made without departing from the spirit of the utility model, which are all within the scope of the utility model. Accordingly, the scope of protection of the present utility model is to be determined by the appended claims.

Claims

1. A loading attachment for automatic goods of furniture for display rather than for use equipment of motor plane bearing subassembly, its characterized in that, loading attachment includes:

a support frame;

2. The feeding device for the automatic ornament equipment of the motor plane bearing assembly according to claim 1, wherein the conveying assembly comprises a conveying belt arranged on the supporting frame and a driving motor for driving the conveying belt to work, the driving motor is in signal connection with the sensor assembly, and the projection of the feed opening falls on the conveying belt.

3. The loading device for the automatic ornament device of the motor plane bearing assembly according to claim 1, wherein the cylindrical hopper is symmetrically provided with elongated openings along the height direction thereof.

4. A loading device for an automatic swing piece device of a motor plane bearing assembly according to claim 3, wherein a connecting cylinder is installed in the through hole, the connecting cylinder is inserted in the cylinder hopper, and the top of the connecting cylinder is different from the bottom of the strip-shaped opening by a height of a copper seat or a graphite plane bearing.

5. The loading device for the motor flat bearing assembly automatic ornament device according to claim 1, wherein a guide is formed between the support plate and the movable plate.

6. The loading device for the automatic ornament assembly of the motor flat bearing assembly according to claim 5, wherein the guide member includes a guide groove provided on the support plate and a guide block formed to extend upward from an upper surface of the movable plate, the guide block sliding in the guide groove under the action of the cylinder.